Thermal and Scalar Dissipation Rates of Stretched Cylindrical Diffusion Flame

Structures of stretched cylindrical diffusion flame with large curvature were investigated experimentally. Temperature distributions of fuel-diluent mixture/air flames were measured. Fuel was diluted with diluent gases (N2, Ar and He) in order to set the Lewis number Le~1. Fuel (Air) was supplied fr...

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Veröffentlicht in:Nihon Kikai Gakkai rombunshuu. B hen 2013, Vol.79(804), pp.1685-1693
Hauptverfasser: SUENAGA, Yosuke, YANAOKA, Hideki, KITANO, Michio, MOMOTORI, Daisuke
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container_issue 804
container_start_page 1685
container_title Nihon Kikai Gakkai rombunshuu. B hen
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creator SUENAGA, Yosuke
YANAOKA, Hideki
KITANO, Michio
MOMOTORI, Daisuke
description Structures of stretched cylindrical diffusion flame with large curvature were investigated experimentally. Temperature distributions of fuel-diluent mixture/air flames were measured. Fuel was diluted with diluent gases (N2, Ar and He) in order to set the Lewis number Le~1. Fuel (Air) was supplied from inside (outside) of the cylindrical flame. Thermal dissipation rates were calculated from measured temperature distribution. In the case of Le=1, the scalar dissipation rate is proportional to the thermal dissipation rate. Therefore, the stoichiometric scalar dissipation rate was evaluated using the maximum value of the thermal dissipation rates obtained from each temperature distribution. Generally, it is known that the scalar dissipation rate of the counterflow flat diffusion flame increases as the flame stretch rate increases. However, in the case of the cylindrical diffusion flames, the scalar dissipation rate has a maximum value or decreases with the stretch rate.
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source J-STAGE Free; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals
subjects Combustion
Diffusion Flame
Flame Curvature
Flame Stretch
Scalar Dissipation Rate
Thermal Dissipation Rate
title Thermal and Scalar Dissipation Rates of Stretched Cylindrical Diffusion Flame
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